Study of unipolar and bipolar hip prostheses using finite element simulation: Contact stress analysis

    Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

    2 Citations (Scopus)

    Abstract

    One of the phenomena which cannot be avoided in a hip prosthesis due to sliding contact as a product of human activity is a wear on the surface of contact interaction. The wear in a bipolar model of the hip prosthesis (the bipolar model) is more complicated than an unipolar model of the hip prosthesis (the unipolar model). There are two contact interactions in the bipolar model, while the unipolar model has only one contact interaction. Wear on the liner and cup surfaces of the bipolar model itself can be early estimated by investigation the contact stresses due to their contact interactions. The contact stress on the liner surface of the unipolar model can be estimated using an analytical method. However, the estimation of contact stress on the liner and cup surface of the bipolar model using analytical method still need to consider. The purpose of this paper is to study the contact stresses on the liner and cup surfaces of the bipolar model using the finite element simulation. There are three models of hip prostheses which are simulated in this research, i.e. the unipolar model, bipolar model and big head unipolar model. The results showed that the maximum contact stress on the liner surface of the bipolar model is higher than the unipolar model. The maximum contact stress on the cup surface of the bipolar model is lower than the big head unipolar model. Based on these results, it can be concluded that the contact stress on the liner and cup surfaces of the bipolar model cannot be estimated using the analytical method.

    Original languageEnglish
    Title of host publicationEngineering Tribology and Materials - ICETAT 2016
    PublisherTrans Tech Publications Ltd
    Pages96-102
    Number of pages7
    Volume739 KEM
    ISBN (Print)9783035710762
    DOIs
    Publication statusPublished - 2017

    Publication series

    NameKey Engineering Materials
    Volume739
    ISSN (Print)1013-9826

    Fingerprint

    Hip prostheses
    Stress analysis
    Wear of materials

    Keywords

    • Bipolar
    • Contact stress
    • Hip prosthesis
    • Unipolar

    Cite this

    Saputra, E., Anwar, I. B., Ismail, R., Jamari, J., & Van Der Heide, E. (2017). Study of unipolar and bipolar hip prostheses using finite element simulation: Contact stress analysis. In Engineering Tribology and Materials - ICETAT 2016 (Vol. 739 KEM, pp. 96-102). (Key Engineering Materials; Vol. 739). Trans Tech Publications Ltd. https://doi.org/10.4028/www.scientific.net/KEM.739.96
    Saputra, Eko ; Anwar, Iwan Budiwan ; Ismail, Rifky ; Jamari, J. ; Van Der Heide, Emile. / Study of unipolar and bipolar hip prostheses using finite element simulation : Contact stress analysis. Engineering Tribology and Materials - ICETAT 2016. Vol. 739 KEM Trans Tech Publications Ltd, 2017. pp. 96-102 (Key Engineering Materials).
    @inproceedings{cd29e14bfef34f8d9f2183451803b8d4,
    title = "Study of unipolar and bipolar hip prostheses using finite element simulation: Contact stress analysis",
    abstract = "One of the phenomena which cannot be avoided in a hip prosthesis due to sliding contact as a product of human activity is a wear on the surface of contact interaction. The wear in a bipolar model of the hip prosthesis (the bipolar model) is more complicated than an unipolar model of the hip prosthesis (the unipolar model). There are two contact interactions in the bipolar model, while the unipolar model has only one contact interaction. Wear on the liner and cup surfaces of the bipolar model itself can be early estimated by investigation the contact stresses due to their contact interactions. The contact stress on the liner surface of the unipolar model can be estimated using an analytical method. However, the estimation of contact stress on the liner and cup surface of the bipolar model using analytical method still need to consider. The purpose of this paper is to study the contact stresses on the liner and cup surfaces of the bipolar model using the finite element simulation. There are three models of hip prostheses which are simulated in this research, i.e. the unipolar model, bipolar model and big head unipolar model. The results showed that the maximum contact stress on the liner surface of the bipolar model is higher than the unipolar model. The maximum contact stress on the cup surface of the bipolar model is lower than the big head unipolar model. Based on these results, it can be concluded that the contact stress on the liner and cup surfaces of the bipolar model cannot be estimated using the analytical method.",
    keywords = "Bipolar, Contact stress, Hip prosthesis, Unipolar",
    author = "Eko Saputra and Anwar, {Iwan Budiwan} and Rifky Ismail and J. Jamari and {Van Der Heide}, Emile",
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    Saputra, E, Anwar, IB, Ismail, R, Jamari, J & Van Der Heide, E 2017, Study of unipolar and bipolar hip prostheses using finite element simulation: Contact stress analysis. in Engineering Tribology and Materials - ICETAT 2016. vol. 739 KEM, Key Engineering Materials, vol. 739, Trans Tech Publications Ltd, pp. 96-102. https://doi.org/10.4028/www.scientific.net/KEM.739.96

    Study of unipolar and bipolar hip prostheses using finite element simulation : Contact stress analysis. / Saputra, Eko; Anwar, Iwan Budiwan; Ismail, Rifky; Jamari, J.; Van Der Heide, Emile.

    Engineering Tribology and Materials - ICETAT 2016. Vol. 739 KEM Trans Tech Publications Ltd, 2017. p. 96-102 (Key Engineering Materials; Vol. 739).

    Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

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    N2 - One of the phenomena which cannot be avoided in a hip prosthesis due to sliding contact as a product of human activity is a wear on the surface of contact interaction. The wear in a bipolar model of the hip prosthesis (the bipolar model) is more complicated than an unipolar model of the hip prosthesis (the unipolar model). There are two contact interactions in the bipolar model, while the unipolar model has only one contact interaction. Wear on the liner and cup surfaces of the bipolar model itself can be early estimated by investigation the contact stresses due to their contact interactions. The contact stress on the liner surface of the unipolar model can be estimated using an analytical method. However, the estimation of contact stress on the liner and cup surface of the bipolar model using analytical method still need to consider. The purpose of this paper is to study the contact stresses on the liner and cup surfaces of the bipolar model using the finite element simulation. There are three models of hip prostheses which are simulated in this research, i.e. the unipolar model, bipolar model and big head unipolar model. The results showed that the maximum contact stress on the liner surface of the bipolar model is higher than the unipolar model. The maximum contact stress on the cup surface of the bipolar model is lower than the big head unipolar model. Based on these results, it can be concluded that the contact stress on the liner and cup surfaces of the bipolar model cannot be estimated using the analytical method.

    AB - One of the phenomena which cannot be avoided in a hip prosthesis due to sliding contact as a product of human activity is a wear on the surface of contact interaction. The wear in a bipolar model of the hip prosthesis (the bipolar model) is more complicated than an unipolar model of the hip prosthesis (the unipolar model). There are two contact interactions in the bipolar model, while the unipolar model has only one contact interaction. Wear on the liner and cup surfaces of the bipolar model itself can be early estimated by investigation the contact stresses due to their contact interactions. The contact stress on the liner surface of the unipolar model can be estimated using an analytical method. However, the estimation of contact stress on the liner and cup surface of the bipolar model using analytical method still need to consider. The purpose of this paper is to study the contact stresses on the liner and cup surfaces of the bipolar model using the finite element simulation. There are three models of hip prostheses which are simulated in this research, i.e. the unipolar model, bipolar model and big head unipolar model. The results showed that the maximum contact stress on the liner surface of the bipolar model is higher than the unipolar model. The maximum contact stress on the cup surface of the bipolar model is lower than the big head unipolar model. Based on these results, it can be concluded that the contact stress on the liner and cup surfaces of the bipolar model cannot be estimated using the analytical method.

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    Saputra E, Anwar IB, Ismail R, Jamari J, Van Der Heide E. Study of unipolar and bipolar hip prostheses using finite element simulation: Contact stress analysis. In Engineering Tribology and Materials - ICETAT 2016. Vol. 739 KEM. Trans Tech Publications Ltd. 2017. p. 96-102. (Key Engineering Materials). https://doi.org/10.4028/www.scientific.net/KEM.739.96